Методом механоактивации получены порошковые композиционные материалы на основе полифениленсульфида с последующим нанесением на подложку в качестве защитного покрытия. В качестве подложки использовались Сталь 45, Сталь 08Х18Н10, Чугун СЧ21, Титан Вт-1-0, магниевый сплав АМг2 и латунь ЛАМш. Для достижения максимальных физико-механических свойств материал основного защитного слоя формировался по схеме многокомпонентного и многоуровнего композита, оптимальным образом использующего полезные свойства матричного и упрочняющего материалов. В качестве упрочняющей фазы твердофазным методом вводились в полимер разномасштабные металлические, керамические и алюмосиликатные порошки. Все типы покрытий показали хорошие физико-механические свойства. Введение наполнителей в полимерную матрицу на базе полифениленсульфида положительно сказалось на снижении коэффициента трения и уровня износа
Powder of composite materials based on polyphenylene sulfide was obtained by the method of mechanical activation followed by application on substrate as a protective coating. The substrate was made of steel 45 08H18N10 Steel, Cast Iron SCH21, Titanium W-1-0, magnesium alloy and brass AMg2 LAMsh. To maximize the physico-mechanical properties the material of the main protective layer was formed as a multi-level and multi-component composite, optimally utilizing the useful properties of the matrix and reinforcement materials. Polymer matrix was filled by solid-state method with the hardening phase introduced by various scale polymer, metal, ceramic and silica-alumina powders. All types of coatings show good physico-mechanical properties. Introduction of fillers in polymer matrix based on reduce friction coefficient and wear.
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